Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A method of making a customized, programmable display receptacle for a specific customer focus that includes at least one of a user, group, company, organization, theme, subject, game and program, the method comprising: Selecting, creating a receptacle, including material type, shape, style and color designed to contain a visual display and electronics comprising of memory, processor, sensor operative to sense receptacle use, at least one of wired and wireless communications, power source, associated electronics and packaging corresponding to, representative of, or otherwise having a connection with a said specific customer focus; molding, embossing, printing at least one of a fixed text, image and form on at least a part of the receptacle corresponding to, representative of, or otherwise having a connection with said specific customer focus; installing the visual display and said electronics to at least one surface area of the receptacle, including: installing the visual display to a sealed, plastic or glass overlay with a transparent window in at least the active display area of the visual display and include any of the said electronics to be either in the same overlay package as the visual display, or separately; installing, securing any of said electronics that are not located in the visual display overlay package, onto a surface of the receptacle, providing electrical connection between at least one of said electronics and visual display in the visual display overlay package and said electronics secured on a surface of the receptacle and installing, securing and sealing the visual display overlay onto a surface the receptacle; installing, securing and sealing the visual display package directly onto a surface of the receptacle by itself when it includes all said electronics; programming the Display Receptacle during at least one of before, during and after visual display overlay installation with at least one program for operating the Display Receptacle including, but not limited to monitoring receptacle use, when and under what conditions at least one of a text, image, and sequence of images is selected, displayed or not displayed and programming the Display Receptacle with data for at least one of text, image and sequence of images for the visual display that is corresponding to, representative of, or otherwise having a connection with the same specific customer focus as was molded, embossed, printed on the receptacle; and verifying successful programming of the Display Receptacle including at least one of communications from the Display Receptacle and an image on the visual display signifying programming success.
This invention relates to a method for creating a customized, programmable display receptacle tailored to a specific customer focus, such as an individual, group, company, organization, theme, subject, game, or program. The method involves designing a receptacle that houses a visual display and associated electronics, including memory, a processor, sensors to detect usage, wired or wireless communication components, a power source, and other supporting electronics. The receptacle is crafted from materials, shapes, styles, and colors that align with the specific customer focus. The manufacturing process includes molding, embossing, or printing fixed text, images, or forms on the receptacle to further personalize it. The visual display and electronics are integrated into the receptacle by either embedding them in a sealed plastic or glass overlay with a transparent window or securing them separately onto the receptacle's surface. The overlay ensures the display remains protected while allowing visibility. If the electronics are not part of the overlay, they are mounted on the receptacle's surface and connected to the display. The overlay is then sealed onto the receptacle. Alternatively, if the display package includes all necessary electronics, it can be directly installed and sealed onto the receptacle. The receptacle is programmed before, during, or after installation with software to monitor usage, control the display of text, images, or image sequences, and ensure the content aligns with the customer focus. The programming also includes verifying successful installation through communication signals or a confirmation image on the display. This method ensures the final product is a fully functional, customized display receptacle tailored to the intended audience.
2. The method of claim 1 wherein the method further comprises: providing a recess in the outside surface area of the receptacle; installing, securing any of the said electronics that are not in the visual display overlay package, in the recessed area of the receptacle, providing electrical connection between at least one of said electronics and the visual display in the visual display overlay package and the said electronics not in the visual display overlay package; installing the visual display overlay package by aligning, securing and sealing the visual display package over at least the recessed area in the receptacle; installing, securing and sealing the visual display package directly onto at least the recessed surface of the receptacle by itself when it includes all of the said electronics.
This invention relates to a method for integrating electronic components into a receptacle, such as a container or housing, with a visual display overlay. The problem addressed is the need for a compact, sealed, and integrated system where electronics are either embedded within a visual display package or installed in a recessed area of the receptacle, ensuring proper electrical connections and structural integrity. The method involves creating a recess in the outer surface of the receptacle to house electronics that are not part of the visual display overlay package. These components are installed and secured within the recessed area, with electrical connections established between them and the visual display. The visual display overlay package is then aligned, secured, and sealed over the recessed area, ensuring protection and a unified structure. If the visual display package contains all necessary electronics, it is installed and sealed directly onto the recessed surface of the receptacle without additional components. This approach ensures a streamlined, protected, and functional integration of electronics within the receptacle.
3. The method of claim 2 wherein the method further comprises: making a portion of the Display Receptacle base hollow; extending the recessed area on the outside surface of the Display receptacle down to a portion of the hollow base; extending the visual display overlay to include covering at least the additional recessed area on the outside of the Display Receptacle; making an opening between the hollow base and the recessed area; installing, securing any of the said electronics that are not in the visual display overlay package, into the hollow base; providing electrical connection between at least one of said electronics and visual display in the visual display overlay package and the said electronics in the Display Receptacle hollow base; installing the visual display overlay package by aligning, securing and sealing the visual display package to over at least the recessed area in the receptacle; and sealing the hollow base.
This invention relates to a display system with an integrated electronic assembly, addressing the challenge of compactly housing electronics while maintaining a sleek, seamless visual display. The system includes a display receptacle with a hollow base portion, where some electronics are installed inside this hollow space. The receptacle has a recessed area on its outer surface, which extends down to the hollow base. A visual display overlay covers this recessed area and may extend further. An opening connects the hollow base to the recessed area, allowing electrical connections between the electronics inside the hollow base and the visual display in the overlay. The overlay is aligned, secured, and sealed over the recessed area, while the hollow base is also sealed to protect the internal electronics. This design ensures a streamlined appearance while providing internal space for electronic components, improving both aesthetics and functionality. The system is particularly useful in applications requiring a minimalist design with integrated electronics, such as digital signage, smart devices, or interactive displays.
4. The Method of claim 1 wherein the method further comprises: including a user interface consisting of at least one of one or more switches, touch sensors and touch screen embedded in the visual display overlay package.
This invention relates to a method for enhancing visual displays, particularly in environments where glare or ambient light reduces visibility. The method involves integrating a visual display overlay package with a light management system to improve contrast and readability. The overlay package includes a light source, such as an LED, positioned to illuminate the display from behind or along its edges. The light source is controlled to adjust brightness and color temperature based on ambient light conditions, ensuring optimal visibility. The method further includes incorporating a user interface into the overlay package, which may consist of switches, touch sensors, or a touchscreen. This interface allows users to manually adjust display settings, such as brightness or contrast, or to interact with the displayed content. The user interface is embedded within the overlay package, ensuring seamless integration without additional external components. The method ensures that the visual display remains clear and readable in varying lighting conditions, improving user experience in applications such as automotive dashboards, industrial control panels, or portable electronic devices.
5. The method of claim 1 wherein the method further comprises: including at least one audio component to said electronics and audio software to provide at least one of; recording audio sound to memory; and producing audio sound from memory.
This invention relates to electronic devices with enhanced audio capabilities. The problem addressed is the lack of integrated audio functionality in certain electronic systems, limiting their ability to capture or reproduce sound. The solution involves incorporating audio components and software into an electronic device to enable recording and playback of audio. The device includes at least one audio component, such as a microphone or speaker, connected to electronics and audio software. The audio software processes audio signals, allowing the device to record sound from the environment and store it in memory. Additionally, the software can retrieve stored audio data from memory and output it as sound through the audio components. This functionality enables the device to serve as a recording or playback system, enhancing its versatility in applications requiring audio interaction. The audio components may include microphones for capturing sound and speakers for playback, while the audio software handles tasks such as analog-to-digital conversion, digital signal processing, and audio file management. The system ensures seamless integration of audio features into the device's existing electronics, providing a compact and efficient solution for audio recording and reproduction. This invention is particularly useful in portable or embedded systems where space and power efficiency are critical.
6. The method of claim 1 wherein the method further comprises providing thermal insulation to at least one of the visual display and said electronics, the method comprising of at least one of: Installing, securing and sealing said electronics to an outside surface of the Display Receptacle with a thermal insulating potting compound, providing electrical connection between at least one of said electronics and the visual display in the visual display overlay package and the said electronics not in the visual display overlay package, followed by installing the visual display overlay package over at least the potted said electronics; installing and securing at least one of said electronics and visual display overlay to a surface area of the Display Receptacle by first installing thermal insulation to the surface area of the Display Receptacle, followed by installing and securing at least one of said electronics and visual display overlay over the insulation; and installing thermal insulation in the visual display overlay package with said electronics behind at least the visual display as part of the visual display overlay assembly process, followed by installing, securing and sealing the visual display overlay package onto a surface area of the Display Receptacle.
This invention relates to thermal management in electronic display systems, specifically addressing heat dissipation and insulation for components in a visual display overlay package. The problem solved involves preventing overheating of electronics and displays in confined spaces, such as in wearable or compact devices, where heat buildup can degrade performance or damage components. The method involves providing thermal insulation to either the visual display, the electronics, or both. One approach is to install, secure, and seal electronics to the outside surface of a display receptacle using a thermal insulating potting compound. Electrical connections are then made between the electronics and the display, followed by placing the visual display overlay package over the potted electronics. Another method involves first installing thermal insulation on a surface area of the display receptacle, then securing the electronics and/or the visual display overlay onto the insulated surface. A third approach integrates thermal insulation within the visual display overlay package itself, placing the electronics behind the display during assembly, and then securing the entire package to the display receptacle. These techniques ensure proper heat management while maintaining structural integrity and electrical functionality in compact electronic display systems.
7. The method of claim 1 wherein the method further comprises including at least one temperature sensor with Display Receptacle software operative for monitoring Display Receptacle temperatures including at least one of Display Receptacle temperature, Display Receptacle contents temperature, Display Receptacle said electronics temperature and Display Receptacle visual display temperature and further comprises at least one of: storing one or more said Display Receptacle temperatures in memory; displaying one or more said Display Receptacle temperatures on the visual display; comparing one or more said Display Receptacle temperatures; analyzing one or more said Display Receptacle temperatures; activating, deactivating, changing or keeping fixed the visual display in response to one or more said Display Receptacle temperatures; and reporting one or more said Display Receptacle temperatures to at least one computer via at least one of wired and wireless communications.
A system for monitoring and managing temperatures within a display receptacle, such as a refrigerated or heated display case, includes at least one temperature sensor integrated with the display receptacle's software. The sensors measure various temperatures, including the internal temperature of the receptacle, the temperature of its contents, the temperature of its electronic components, and the temperature of its visual display. The system stores these temperature readings in memory, displays them on the visual display, and performs comparisons and analyses of the data. Based on the temperature readings, the system can automatically adjust the visual display by activating, deactivating, changing, or maintaining its state. Additionally, the system can report the temperature data to an external computer via wired or wireless communication for remote monitoring and control. This technology addresses the need for real-time temperature monitoring and automated adjustments in display receptacles to ensure optimal conditions for displayed items, prevent equipment failure, and enhance energy efficiency.
8. The method of claim 1 wherein the method further comprises including at least one accelerometer with Display Receptacle software operative for monitoring Display Receptacle accelerometer including at least one of Display Receptacle movement, Display Receptacle orientation, Display Receptacle tilt, Display Receptacle changes in acceleration, tapping sequence on the Display Receptacle and tapping position on the Display Receptacle as means of detecting use and further comprises at least one of: storing said Display Receptacle accelerometer data in memory; comparing said Display Receptacle accelerometer data; analyzing said Display Receptacle accelerometer data; analyzing said Display Receptacle accelerometer data as a user interface; analyzing said Display Receptacle accelerometer data with Display Receptacle data from at least one of other sensors and user inputs; analyzing said Display Receptacle accelerometer data with any of Display Receptacle user and said customer focus data; reporting said Display Receptacle accelerometer data to at least one computer via at least one of wired and wireless communications; and activating, deactivating, changing or keeping fixed the visual display in response to at least one of said Display Receptacle accelerometer data analysis and said Display Receptacle accelerometer data comparison.
A system monitors and analyzes accelerometer data from a display receptacle to detect and respond to user interactions. The accelerometer tracks movement, orientation, tilt, acceleration changes, tapping sequences, and tapping positions on the receptacle. This data is used to detect usage patterns and can be stored in memory, compared against other data, or analyzed to interpret user inputs. The analysis may integrate data from additional sensors or user inputs, as well as customer focus data. The system can report the accelerometer data to a computer via wired or wireless communication. Based on the analysis, the system can dynamically adjust the visual display by activating, deactivating, changing, or keeping it fixed. This approach enhances user interaction by leveraging motion and touch inputs to control display behavior.
9. The method of claim 1 wherein the embodiment is a Gas Display Receptacle in the form of a balloon with at least the visual display overlay package attached to its' surface and further comprises; Installing a user interface consisting of at least one of one or more touch sensitive switches embedded in the visual display overlay package in an area outside of the visual display window, capacitive touch sensing of the Gas Display Receptacle and touch sensing on the visual display overlay package.
A gas display receptacle system involves a balloon-like structure with an integrated visual display and user interface. The balloon contains a gas, such as helium, to maintain buoyancy and shape, while a visual display overlay package is attached to its surface. This overlay includes a transparent window for displaying visual content, such as images or video, and a user interface for interaction. The user interface may include touch-sensitive switches embedded in the overlay package, positioned outside the display window, allowing users to control the device without obstructing the visual output. Additionally, the system may incorporate capacitive touch sensing on the balloon itself or the overlay package, enabling gesture-based or proximity-based interactions. The balloon's flexible and lightweight design allows for easy deployment in various environments, while the integrated display and touch controls provide an interactive experience. This technology addresses the need for portable, visually engaging, and user-interactive display systems, particularly in applications where traditional rigid displays are impractical.
10. The method of claim 1 wherein the embodiment is a Gas Display Receptacle in the form of a balloon with at least the visual display overlay package attached to its' surface and further comprises; providing a base that is at least a portion hollow; installing said electronics that are not located in the visual display overlay package, in the base; installing an electrical connection between at least one of said electronics and visual display in the visual display overlay package and said electronics in the base; and Installing a user interface consisting of at least one of one or more touch sensitive switches embedded in the visual display overlay package in an area outside of the visual display window, one or more switches in the base, capacitive touch sensing of the Gas Display Receptacle, touch sensing on the visual display overlay package.
A gas display receptacle in the form of a balloon includes a visual display overlay package attached to its surface. The balloon has a base that is at least partially hollow, housing electronics not contained within the visual display overlay package. An electrical connection links these base electronics to the visual display in the overlay package. The device also features a user interface, which may include touch-sensitive switches embedded in the overlay package outside the display window, switches integrated into the base, capacitive touch sensing on the balloon itself, or touch sensing on the overlay package. The visual display overlay package contains its own electronics and a transparent or translucent window for displaying visual content. The balloon structure provides a lightweight, portable enclosure for the display and electronics, while the user interface allows interaction with the device. This design enables a floating or suspended display with integrated controls, suitable for advertising, entertainment, or decorative purposes. The combination of the balloon structure, internal electronics, and interactive user interface creates a novel display system that is both visually engaging and functional.
11. A method in claim 1 wherein the embodiment is a Globe Display Receptacle in the form of a snow globe containing a liquid with particles in the liquid, securely mounted on a base with a least a portion of the base hollow and a base bottom cover and wherein the method further comprises: Installing a visual display in at least one of mounting onto a side of the base with a transparent window in at least the active area of the visual display and mounting on top of the base within the globe sealingly enclosed to the base with a transparent window in at least the active area of the visual display; installing at least one light source sealingly protected within the at least one of the base and the globe to provide lighting effects that includes providing light for at least one of the visual display, optical windows within the base allowing light to emanate from the base into the globe, sealingly secured optical fibers, light guides, light diffusers, light reflectors and the scenery within the globe; installing at least one of a pump with tubing sealingly installed to circulate liquid and suspended particles within the globe and a motor with wires and shaft sealingly installed coupled to a device to circulate liquid and suspended particles within the globe; installing an accelerometer and supporting software to detect at least one of tapping, tapping codes, tapping position, movement, acceleration and tilt; including at least one audio component to said electronics and audio software to provide at least one of recording audio voice, audio music, audio sound to memory and producing audio voice, audio music, audio sound from memory; installing a means of providing a continuous power source through at least one of installing a removable base cover and battery clip mounted inside the hollow base as a means for removing and securing a battery, installing a rechargeable power source and interface for receiving energy from a rechargeable source and installing an interface for providing power directly to the Globe Display Receptacle directly; installing a user interface consisting of at least one of at least one switch, touch sensor, touching sensing and accelerometer and application software that interprets user interface data to user commands and executes software in response to said user commands that includes, but is not limited to at least one of activating, deactivating the Globe Display Receptacle, selecting, activating, deactivating, changing intensity of said light source, selecting, activating, deactivating, changing power level and of the pump or motor, selecting, activating, deactivating, changing intensity of audio voice, audio music, audio sound and selecting, activating, deactivating, changing, keeping fixed visual display image, text, sequence of images; and installing Globe Receptacle Display software that requires no user inputs or commands to initiate and includes at least one of activating, deactivating the Globe Display Receptacle, selecting, activating, deactivating, changing intensity and sequence of said light source, selecting, activating, deactivating, changing power level and sequencing of the pump or motor, selecting, activating, deactivating, changing the intensity and sequencing of the audio voice, audio music, audio sound, selecting activating, deactivating, changing, keeping fixed visual display image, text, sequence of images and synchronization of image, text, sequence of images, audio, said light source and pump or motor.
A snow globe display system combines a traditional snow globe with interactive electronic features. The globe contains a liquid with suspended particles and is mounted on a hollow base with a removable bottom cover. The system includes a visual display integrated into either the base or the globe, with a transparent window for visibility. Lighting effects are provided by sealed light sources, optical fibers, diffusers, or reflectors, illuminating the display and internal scenery. A pump or motor circulates the liquid and particles within the globe, while an accelerometer detects tapping, movement, or tilt to trigger responses. Audio components allow recording and playback of voice, music, or sound effects. Power is supplied via a removable battery, rechargeable source, or direct connection. User controls include switches, touch sensors, or the accelerometer, enabling activation, light and audio adjustments, and display content selection. The system also features autonomous software that operates without user input, controlling lighting, audio, display sequences, and synchronization of these elements. The design ensures all electronic components are sealed to prevent liquid damage.
12. The method of claim 11 wherein the method further comprises installing at least one of wired or wireless electronics and communications software that includes, but is not limited to: Interfacing to at least one of wired and wireless communications; and downloading one or more of files and programs to the Globe Receptacle Display that include one or more of visual display image, text, sequence of images, audio voice, music and other sounds, said light source activation, deactivation and change in sequence or intensity, pump or motor activation, deactivation and change in sequence and power, synchronization of image, text, sequence of images, audio, said light source and pump or motor and software revision updates.
This invention relates to a method for enhancing a globe receptacle display system, which is used to present visual, auditory, and mechanical effects. The system addresses the need for dynamic and synchronized multimedia presentations in display devices, such as decorative globes or similar structures. The method involves installing electronic components and communication software to enable advanced functionality. These components support both wired and wireless communication, allowing the system to receive and process data for various multimedia outputs. The software facilitates the downloading of files and programs that control visual displays, including static images, text, image sequences, and audio content such as voice, music, and other sounds. Additionally, the system can manage light sources, adjusting their activation, deactivation, sequence, and intensity. It also controls pumps or motors, regulating their activation, deactivation, sequence, and power levels. The method ensures synchronization between visual, auditory, and mechanical elements, creating cohesive and coordinated presentations. Furthermore, the system supports software updates to maintain and improve functionality over time. This approach enhances the versatility and interactivity of globe receptacle displays, making them suitable for various applications, including advertising, entertainment, and decorative purposes.
13. A method in claim 1 wherein the method further comprises: installing real time clock functionality and software in at least one of the Display Receptacle and an external computer; uploading one or more of said customer focus image, text, sequence of images, audio voice, audio music and audio sound and it's relation to specific dates, times to be activated, deactivated, changed, or kept fixed to at least one of the Display Receptacle and an external computer; and activating, deactivating, changing or keeping fixed one or more of image, text, sequence of images, audio voice, audio music and audio sound in the Display Receptacle based their associated dates, times in at least one of the Display Receptacle and an external computer via the Display Receptacle wireless communications.
This invention relates to a dynamic display system for controlling multimedia content in a Display Receptacle, addressing the need for automated, time-based management of visual and audio elements. The system integrates real-time clock functionality and software into either the Display Receptacle or an external computer to enable precise scheduling of content. Users can upload various media types, including images, text, image sequences, voice, music, and sound effects, along with specific activation, deactivation, or modification timelines. The system then activates, deactivates, or adjusts the content in the Display Receptacle based on predefined dates and times, using wireless communication to synchronize changes. This allows for automated, remote-controlled updates to the display, ensuring content relevance and reducing manual intervention. The invention enhances flexibility in managing promotional or informational displays by enabling dynamic, time-sensitive content delivery.
14. A method of making a customized, programmable Display Receptacle for an identified customer that includes least one of a user, group, company, organization, theme, subject, game and program and providing customer changes of at least one of rights, privileges, updates and opportunities to the Display Receptacle said identified customer, the method comprising: Selecting or creating at least one receptacle, including material type, shape, style and color designed to contain a visual display and electronics comprising of memory, processor, sensor operative to sense receptacle use, at least one of wired and wireless communications, power source, associated electronics and packaging that is corresponding to, representative of or otherwise having a connection with said identified customer; molding, embossing, printing at least one of a fixed text, image and form on at least a part of the receptacle that is corresponding to, representative of, or otherwise having a connection with said identified customer; installing a visual display and said electronics to at least one surface area of the receptacle; programming the Display Receptacle during at least one of before, during and after visual display overlay installation with at least one program for operating the Display Receptacle including, but not limited to monitoring receptacle use, when and under what conditions at least one of a text, image and sequence of images is selected, displayed or not displayed and programming the Display Receptacle with data for at least one of text, image and sequence of images for the visual display that is corresponding to, representative of, or otherwise having a connection with the same identified customer as was molded, embossed, printed on the receptacle; assigning a unique Display Receptacle ID (Identification) in the Display Receptacle by either using the unique identification within the processor or wireless communication device of the Display Receptacle and associating it as its' Display Receptacle ID, or by programming a unique Display Receptacle ID in the Display Receptacle's memory; programming Display Receptacle said identified customer information into at least one of Display Receptacle memory and to an external computer and associate the said identified customer with the unique ID of at least one Display Receptacle; verifying successful programming of the Display Receptacle including at least one of communications from the Display Receptacle and an image on the visual display of the Display Receptacle signifying programming success; using the Display Receptacle unique ID number in at least one of memory, processor, and wireless communications device to identify the Display Receptacle with the Display Receptacle said identified customer; monitoring at least one of Display Receptacle use, history, status and actions over time by the Display Receptacle's said identified customer and recording at least one of use, history, status and actions in at least one of, the Display Receptacle memory and an external computer via the Display Receptacle hard-wired or wireless communications port; performing analysis on at least one of Display Receptacle use, history, status and actions by the Display Receptacle's said identified customer and said identified customer information in software located in at least one of the Display Receptacle and an external computer where at least one of Display Receptacle use, history, status and actions and said identified customer information have been recorded; and updating the said identified customer Display Receptacle visual display to indicate the new said customer changes based on the analysis performed in at least one of the Display Receptacle and an external computer via the Display Receptacle hard-wired or wireless communications port.
The invention relates to a method for creating and managing customized, programmable display receptacles tailored to specific customers, which can be individuals, groups, companies, organizations, or themes. The problem addressed is the lack of personalized, interactive display solutions that can adapt to user preferences and behaviors over time. The method involves designing a receptacle with a visual display and embedded electronics, including a processor, memory, sensors, and communication capabilities. The receptacle is customized with materials, shapes, styles, and colors that correspond to the identified customer, along with molded, embossed, or printed text, images, or forms representing the customer. The receptacle is programmed with software to monitor usage, control displayed content, and track interactions. A unique identifier is assigned to each receptacle, linking it to the customer in both the device memory and an external system. The system continuously monitors and records usage data, such as display interactions and customer actions, and performs analysis to determine updates or changes. Based on this analysis, the display content is dynamically updated to reflect new customer preferences, rights, or opportunities. The updates are transmitted wirelessly or via a wired connection, ensuring the receptacle remains personalized and relevant. This approach enables long-term engagement and customization, enhancing the user experience.
15. The Method of claim 14 wherein the method further comprises: including a user interface consisting of at least one of one or more switches, touch sensors and touch screen embedded in the visual display overlay package; monitoring at least one of Display Receptacle use, history, status, user input and actions over time by the Display Receptacle's said identified customer and recording at least one of use, history, status, user input and actions in at least one of the Display Receptacle memory and an external computer via the Display Receptacle hard-wired or wireless communications port; performing analysis on Display Receptacle use, history, status, user input and actions by the Display Receptacle's identified customer in software located in at least one of the Display Receptacle or an external computer where at least one of Display Receptacle use, history, status, user input and actions have been recorded; and updating the said identified customer Display Receptacle visual display to indicate the new said customer changes based on the software analysis in at least one of the Display Receptacle and after being received from an external computer via the Display Receptacle hard-wired or wireless communications port.
A system and method for enhancing a display receptacle, such as a digital signage unit or interactive kiosk, with user interaction and data analysis capabilities. The technology addresses the need for dynamic content updates and personalized user experiences in display systems. The display receptacle includes a visual display overlay package with embedded user interface elements, such as switches, touch sensors, or a touchscreen, allowing users to interact with the system. The system monitors and records user interactions, including usage patterns, input actions, and system status, storing this data either locally in the receptacle's memory or remotely on an external computer via wired or wireless communication. Software analyzes the collected data to identify trends, preferences, or behavioral insights specific to the identified customer. Based on this analysis, the system updates the visual display content in real-time, either locally or after receiving instructions from an external computer. This ensures the display remains relevant and personalized to the user's needs, improving engagement and functionality. The system enables adaptive, data-driven content delivery in display receptacles, enhancing user experience and operational efficiency.
16. The method of claim 14 wherein the method further comprises: including at least one audio component to said electronics and audio software to provide at least one of; recording audio sound to memory; and producing audio sound from memory.
This invention relates to electronic devices with enhanced audio capabilities. The problem addressed is the lack of integrated audio functionality in certain electronic systems, limiting their ability to capture or reproduce sound. The solution involves incorporating audio components and software into an electronic device to enable audio recording and playback. The audio components may include microphones, speakers, or other sound transducers, while the audio software processes and stores audio data in memory. The system allows for recording ambient or user-generated sounds into memory and later retrieving and outputting those sounds through speakers or other audio output devices. This functionality can be used in various applications, such as voice recording, sound monitoring, or multimedia playback. The invention ensures seamless integration of audio features within the existing electronic framework, enhancing the device's versatility and user interaction capabilities. The audio software may include encoding, decoding, and signal processing algorithms to optimize sound quality and storage efficiency. The system may also support real-time audio processing, allowing for live recording and playback without significant latency. This solution provides a comprehensive audio solution for electronic devices, addressing the need for compact, efficient, and high-quality audio integration.
17. The method of claim 14 wherein the method further comprises providing thermal insulation to at least one of the visual display and said electronics, the method comprising of at least one of: Installing, securing and sealing said electronics to an outside surface of the Display Receptacle with a thermal insulating potting compound, providing electrical connection between at least one of said electronics and the visual display in the visual display overlay package and the said electronics not in the visual display overlay package, followed by installing the visual display overlay package over at least the potted said electronics; installing and securing at least one of said electronics and visual display overlay to a surface area of the Display Receptacle by first installing thermal insulation to the surface area of the Display Receptacle, followed by installing and securing at least one of said electronics and visual display overlay over the insulation; and installing thermal insulation in the visual display overlay package with said electronics behind at least the visual display as part of the visual display overlay assembly process, followed by installing, securing and sealing the visual display overlay package onto a surface area of the Display Receptacle.
This invention relates to thermal management in electronic display systems, particularly for devices where visual displays and associated electronics are integrated into a display receptacle. The problem addressed is the need to prevent overheating of electronic components and displays while maintaining structural integrity and electrical connectivity. The solution involves providing thermal insulation to protect the display and electronics from excessive heat. The method includes several approaches: applying a thermal insulating potting compound to secure and seal electronics to the outside surface of the display receptacle, ensuring electrical connections between components inside and outside the display overlay package before installing the overlay. Another approach involves pre-installing thermal insulation on the receptacle surface before mounting the electronics or display overlay. Additionally, thermal insulation can be integrated into the display overlay package itself during assembly, with the insulated package then secured to the receptacle. These techniques ensure proper heat dissipation while maintaining functional and structural performance.
18. The method of claim 14 wherein the method further comprises including at least one temperature sensor with Display Receptacle software operative for monitoring Display Receptacle temperatures including at least one of Display Receptacle temperature, Display Receptacle contents temperature, Display Receptacle said electronics temperature and Display Receptacle visual display temperature and further comprises at least one of: storing one or more said Display Receptacle temperatures in memory; displaying one or more said Display Receptacle temperatures on the visual display; comparing one or more said Display Receptacle temperatures; analyzing one or more said Display Receptacle temperatures; activating, deactivating, changing or keeping fixed the visual display in response to one or more said Display Receptacle temperatures; and reporting one or more said Display Receptacle temperatures to at least one computer via at least one of wired and wireless communications.
A system for monitoring and managing temperatures within a display receptacle, such as a refrigerated or heated display case, includes at least one temperature sensor integrated with the receptacle's software. The sensors measure various temperatures, including the receptacle's internal environment, the temperature of its contents, the temperature of its electronic components, and the temperature of its visual display. The system stores these temperature readings in memory, displays them on the receptacle's visual interface, and allows for comparison and analysis of the data. Based on the temperature readings, the system can dynamically adjust the visual display—activating, deactivating, or modifying its operation—ensuring optimal performance and safety. Additionally, the system can transmit temperature data to external computers via wired or wireless communication, enabling remote monitoring and control. This approach enhances temperature regulation, prevents overheating or cooling issues, and ensures the display's contents remain within safe and optimal conditions.
19. The method of claim 14 , wherein the method further comprises including at least one accelerometer with Display Receptacle software operative for monitoring Display Receptacle accelerometer including at least one of Display Receptacle movement, Display Receptacle orientation, Display Receptacle tilt, Display Receptacle changes in acceleration, tapping sequence on the Display Receptacle and tapping position on the Display Receptacle as means of detecting use and further comprises at least one of: storing said Display Receptacle accelerometer data in memory; comparing said Display Receptacle accelerometer data; analyzing said Display Receptacle accelerometer data; analyzing said Display Receptacle accelerometer data as a user interface; analyzing said Display Receptacle accelerometer data with Display Receptacle data from at least one of other sensors and user inputs; analyzing said Display Receptacle accelerometer data with any of Display Receptacle user and said identified customer data; reporting said Display Receptacle accelerometer data to at least one computer via at least one of wired and wireless communications; and activating, deactivating, changing or keeping fixed the visual display in response to at least one of said Display Receptacle accelerometer data analysis and said Display Receptacle accelerometer data comparison.
A system and method for enhancing display receptacles, such as digital signage or interactive kiosks, by integrating accelerometer-based monitoring and analysis. The technology addresses the need for improved user interaction detection, security, and adaptive display control in display receptacles. An accelerometer is embedded within the display receptacle to monitor various physical parameters, including movement, orientation, tilt, acceleration changes, tapping sequences, and tapping positions. These accelerometer readings are used to detect and analyze user interactions, such as tapping gestures or device orientation changes, which can serve as input for a user interface. The system may store, compare, and analyze the accelerometer data, either independently or in combination with data from other sensors, user inputs, or customer identification data. The analysis can trigger actions such as modifying the visual display (e.g., activating, deactivating, or adjusting content) based on the detected interactions or conditions. Additionally, the accelerometer data can be transmitted to a remote computer via wired or wireless communication for further processing or reporting. This approach enables dynamic and context-aware display behavior, improving user engagement and security in public or commercial display environments.
20. A method in claim 14 wherein the method further comprises: installing real time clock functionality and software in at least one of the Display Receptacle and an external computer: uploading one or more of said customer focus image, text, sequence of images, audio voice, audio music and audio sound and it's relation to specific dates, times to be activated, deactivated, changed, or kept fixed to at least one of the Display Receptacle and an external computer: and activating, deactivating, changing or keeping fixed one or more of image, text, sequence of images, audio voice, audio music and audio sound in the Display Receptacle based their associated dates, times in at least one of the Display Receptacle and an external computer via the Display Receptacle wireless communications.
This invention relates to a system for dynamically controlling multimedia content in a display receptacle, such as a digital picture frame or similar device, using real-time scheduling. The problem addressed is the need for automated, time-based management of multimedia content, including images, text, audio, and sequences of media, without manual intervention. The system includes a display receptacle with wireless communication capabilities and real-time clock functionality, either integrated or managed by an external computer. The method involves uploading multimedia content—such as images, text, audio, or sequences of media—and associating each piece with specific activation, deactivation, or modification schedules based on dates and times. The system then automatically adjusts the displayed content in the receptacle according to these predefined schedules, ensuring that the correct media is shown at the right time. This can be controlled either locally within the receptacle or remotely via an external computer, using wireless communication to synchronize and update the display settings. The approach eliminates the need for manual updates, enabling automated, time-based content management for dynamic advertising, notifications, or personalized messaging.
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November 3, 2020
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